The rising concentration of global atmospheric carbon dioxide (CO2) has severely affected
our planet's homeostasis. Efforts are being made worldwide to curb carbon dioxide …

Microalgal photosynthesis is responsible for nearly half of the CO 2 annually captured by
Earth's ecosystems. In aquatic environments where the CO 2 availability is low, the CO 2 …

Many eukaryotic photosynthetic organisms enhance their carbon uptake by supplying
concentrated CO2 to the CO2-fixing enzyme Rubisco in an organelle called the pyrenoid …

Global photosynthesis consumes ten times more CO2 than net anthropogenic emissions,
and microalgae account for nearly half of this consumption. The high efficiency of algal …

Many photosynthetic species have evolved CO2-concentrating mechanisms (CCMs) to
improve the efficiency of CO2 assimilation by Rubisco and reduce the negative impacts of …

CO2 fixation is commonly limited by inefficiency of the CO2-fixing enzyme Rubisco.
Eukaryotic algae concentrate and fix CO2 in phase-separated condensates called …

Although cyanobacteria and algae represent a small fraction of the biomass of all primary
producers, their photosynthetic activity accounts for roughly half of the daily CO2 fixation that …

Pyrenoids are non-membrane bound organelles found in chloroplasts of algae and hornwort
plants that can be seen by light-microscopy. Pyrenoids are formed by liquid-liquid phase …

Many organisms sense light using rhodopsins, photoreceptive proteins containing a retinal
chromophore. Here we report the discovery, structure and biophysical characterization of …

The pyrenoid is a phase-separated organelle that enhances photosynthetic carbon
assimilation in most eukaryotic algae and the land plant hornwort lineage. Pyrenoids …